Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A method comprising: delivering power, data, and cooling on a cable from a central network device to a remote splitter device for splitting and transmitting said power, data, and cooling to a plurality of remote communications devices over a plurality of cables, each of the cables carrying said power, data, and cooling; receiving at the central network device, monitoring information from said plurality of remote communications devices on the cable; and processing said monitoring information and allocating said power, data, and cooling to each of said plurality of remote communications devices based on said monitoring information, wherein allocating said power, data, and cooling comprises transmitting a message from the central network device to a controller at one of said plurality of remote communications devices to adjust power, data, or cooling usage; wherein the cables each comprise a power line for delivering power, a data line for transmitting fiber delivered data, and a coolant tube for carrying coolant.
This invention relates to a network system that integrates power, data, and cooling delivery over a single cable infrastructure to support remote communications devices. The system addresses the challenge of efficiently managing resources in distributed network environments where multiple remote devices require coordinated power, data transmission, and thermal management. The system includes a central network device that delivers power, data, and cooling to a remote splitter device via a primary cable. The splitter device distributes these resources to multiple remote communications devices through individual cables, each containing a power line, a data line (for fiber-optic data transmission), and a coolant tube. The central network device monitors performance and usage data from the remote devices, processes this information, and dynamically allocates power, data bandwidth, and cooling based on demand. Adjustments are made by sending control messages to controllers at the remote devices, allowing fine-tuned resource allocation. This approach simplifies infrastructure by consolidating power, data, and cooling into a unified cable system, reducing complexity and improving scalability. The dynamic allocation ensures efficient resource utilization, optimizing performance across distributed network nodes.
2. The method of claim 1 wherein said monitoring information comprises power and thermal data.
This invention relates to a system for monitoring and managing power and thermal conditions in electronic devices. The method involves collecting real-time power and thermal data from various components within the device, such as processors, memory modules, and other hardware elements. The collected data is analyzed to detect anomalies, inefficiencies, or potential failures that could impact performance or reliability. Based on the analysis, the system may adjust operational parameters, such as voltage, clock speed, or cooling mechanisms, to optimize performance while preventing overheating or excessive power consumption. The method ensures that the device operates within safe thermal and power thresholds, extending its lifespan and maintaining efficiency. The system may also generate alerts or logs for further diagnostic purposes, allowing for proactive maintenance and troubleshooting. By continuously monitoring and dynamically responding to power and thermal conditions, the invention enhances the overall stability and efficiency of electronic devices.
3. The method of claim 1 wherein said monitoring information comprises at least one of current and voltage for power, queue size for data, and temperature, pressure, or flow for cooling.
This invention relates to monitoring and managing system performance in computing or industrial environments. The method involves tracking key operational parameters to ensure efficient and reliable operation. Specifically, the monitoring information includes measurements of electrical current and voltage to assess power consumption, queue size to evaluate data processing efficiency, and environmental factors such as temperature, pressure, or flow to monitor cooling systems. These parameters are collected to detect anomalies, optimize performance, and prevent failures. The method may also involve analyzing trends in the monitored data to predict potential issues before they occur. By continuously tracking these variables, the system can maintain stability, reduce downtime, and improve overall efficiency. The approach is applicable in data centers, industrial machinery, or any system where real-time monitoring of power, data, and cooling is critical. The invention ensures that deviations from normal operating conditions are quickly identified and addressed, enhancing system reliability and longevity.
4. The method of claim 1 wherein allocating said power, data, and cooling comprises adjusting delivery of at least one of power, data, and cooling to one of said plurality of remote communications device.
This invention relates to managing power, data, and cooling resources in a distributed communications system. The system includes a central hub connected to multiple remote communications devices, such as base stations or network nodes, which require power, data transmission, and thermal management. The challenge addressed is efficiently distributing these resources to optimize performance and reliability while minimizing waste. The method involves dynamically allocating power, data bandwidth, and cooling to the remote devices based on their operational needs. This allocation is adjusted in real-time to respond to changes in demand, environmental conditions, or system performance. For example, if a remote device experiences increased traffic or higher temperatures, the system may prioritize delivering additional power or cooling to that device while reducing resources allocated to other devices with lower demand. The adjustment process may involve modifying power supply levels, rerouting data transmission paths, or activating additional cooling mechanisms. The system may also monitor the status of each remote device to ensure that adjustments are made proactively before performance degradation occurs. By dynamically balancing these resources, the system improves energy efficiency, reduces operational costs, and enhances overall network reliability.
5. The method of claim 1 wherein allocating said power, data, and cooling comprises recalculating an interleave pattern for power packets based on power measurements at said plurality of remote communications devices.
This invention relates to power distribution systems for remote communications devices, such as those in wireless networks or distributed computing environments. The problem addressed is the efficient allocation of power, data, and cooling resources to multiple remote devices to optimize performance and energy usage. Traditional systems often fail to dynamically adjust resource distribution based on real-time conditions, leading to inefficiencies or overloading. The invention provides a method for dynamically allocating power, data, and cooling resources among a plurality of remote communications devices. Power is distributed in the form of power packets, and the allocation process involves recalculating an interleave pattern for these power packets based on power measurements taken at the remote devices. This recalculation ensures that power is distributed in a manner that balances load, prevents overloading, and maximizes efficiency. The system continuously monitors power consumption at each device and adjusts the interleave pattern accordingly, allowing for real-time optimization of resource distribution. This dynamic adjustment helps maintain stable operation, reduces energy waste, and improves overall system reliability. The method may also include similar recalculations for data and cooling resources to ensure coordinated optimization across all critical system parameters.
6. The method of claim 1 wherein allocating said power, data, and cooling comprises adjusting a timeslot allocation for data based on queue sizes at said plurality of remote communications devices.
This invention relates to power, data, and cooling management in distributed computing systems, particularly for optimizing resource allocation in environments with multiple remote communications devices. The problem addressed is inefficient resource utilization, where power, data transmission, and cooling are not dynamically adjusted based on real-time demands, leading to wasted energy, network congestion, or overheating. The method involves dynamically allocating power, data transmission, and cooling resources across a network of remote devices. A key aspect is adjusting the timeslot allocation for data transmission based on queue sizes at the remote devices. This ensures that devices with larger data queues receive more transmission time, improving throughput and reducing latency. The system monitors queue sizes in real time and reallocates timeslots accordingly, balancing network load and preventing bottlenecks. Additionally, power distribution and cooling are coordinated with data transmission to maintain system efficiency and thermal stability. The method may also include prioritizing critical data or adjusting cooling based on thermal sensor feedback to prevent overheating. By dynamically adapting resource allocation, the system optimizes performance while minimizing energy waste and thermal issues.
7. The method of claim 1 wherein allocating delivery of said power, data, and cooling comprises modifying a cooling valve or pump setting based on cooling monitoring at said plurality of remote communications devices.
This invention relates to managing power, data, and cooling resources in distributed communications systems, particularly in environments where remote devices require dynamic adjustments to maintain optimal performance. The problem addressed is the inefficient allocation of cooling resources, which can lead to overheating, reduced device lifespan, or performance degradation in remote communications equipment. The method involves monitoring cooling conditions at multiple remote communications devices and dynamically adjusting cooling systems, such as valves or pumps, to regulate temperature. By analyzing real-time cooling data, the system determines optimal settings for cooling components to ensure efficient heat dissipation while minimizing energy waste. This adaptive approach prevents overheating and extends the operational reliability of the devices. The invention builds on a broader system for managing power, data, and cooling resources, where power distribution and data routing are also optimized. The cooling adjustments are integrated with these other resource allocations to create a unified management strategy. By continuously monitoring and adjusting cooling parameters, the system ensures that remote devices operate within safe temperature ranges, improving overall system efficiency and longevity. This method is particularly useful in data centers, telecommunications networks, or other environments where remote devices must maintain stable operating conditions under varying thermal loads.
8. The method of claim 1 wherein said monitoring information comprises power and fluid information at the central network device and said plurality of remote communications devices and wherein allocating said power, data, and cooling comprises adjusting delivery of cooling based on said power and fluid information.
This invention relates to a system for managing power, data, and cooling in a network with a central device and multiple remote communications devices. The system monitors power and fluid information at both the central and remote devices to optimize resource allocation. By analyzing this data, the system dynamically adjusts cooling delivery to maintain efficient operation. The method ensures that power distribution, data transmission, and cooling are coordinated to prevent overheating, reduce energy waste, and improve overall network performance. The system may also include mechanisms for detecting and mitigating faults, such as power surges or cooling failures, to enhance reliability. The invention is particularly useful in data centers, telecommunications networks, or other environments where thermal management and power efficiency are critical. By integrating real-time monitoring with adaptive control, the system provides a more responsive and energy-efficient approach to network management compared to static or manual configurations.
9. The method of claim 1 wherein allocating said power, data, and cooling comprises balancing needs of said plurality of remote communications devices at a control system of the central network device.
This invention relates to managing power, data, and cooling resources in a network system with a central network device and multiple remote communications devices. The problem addressed is efficiently distributing these resources to meet the varying demands of the remote devices while maintaining optimal performance and reliability. The method involves a central network device that allocates power, data, and cooling resources to the remote devices. The allocation is dynamically adjusted based on the needs of the remote devices, ensuring that each device receives the necessary resources without overloading the system. The central network device monitors the status and requirements of the remote devices, such as power consumption, data throughput, and thermal conditions, to make informed allocation decisions. The allocation process includes balancing the needs of the remote devices to prevent resource conflicts and ensure fair distribution. This balancing is performed at a control system within the central network device, which analyzes real-time data from the remote devices and adjusts resource allocation accordingly. The control system may prioritize certain devices or tasks based on predefined criteria, such as criticality or urgency, to optimize overall system performance. The method ensures that power, data, and cooling resources are efficiently utilized, reducing waste and improving system reliability. By dynamically adjusting resource allocation, the system can adapt to changing demands, such as increased data traffic or thermal fluctuations, while maintaining stable operation. This approach is particularly useful in environments where resource availability is limited or where remote devices have varying and unpredictable demands.
10. The method of claim 1 further comprising delivering said power, data, and cooling from the central network device to a plurality of splitter devices, each of the splitter devices in communication with a cluster of said remote communications devices.
This invention relates to a distributed network system for delivering power, data, and cooling to remote communications devices. The system addresses the challenge of efficiently managing resources in large-scale network deployments, such as data centers or telecommunications infrastructure, where remote devices require simultaneous power, data transmission, and thermal management. The system includes a central network device that integrates power distribution, data communication, and cooling functions. The central device generates and transmits electrical power, processes and routes data signals, and circulates a cooling fluid to maintain optimal operating temperatures. The power, data, and cooling are delivered through a unified infrastructure to multiple splitter devices, which act as intermediate hubs. Each splitter device distributes the power, data, and cooling to a cluster of remote communications devices, such as servers, switches, or other networked equipment. The splitter devices ensure that each cluster receives the necessary resources while maintaining synchronization and efficiency across the network. This approach simplifies installation, reduces cabling complexity, and improves scalability by consolidating resource delivery into a single, integrated system. The cooling fluid may be a liquid or gas, and the data transmission can occur over electrical, optical, or hybrid connections. The system is designed to support high-density deployments with minimal energy loss and thermal inefficiencies.
11. The method of claim 1 wherein allocating said power, data, and cooling comprises allocating based on machine learning using said monitoring information.
A system and method for dynamically allocating power, data, and cooling resources in a computing environment, particularly in data centers or high-performance computing systems, addresses inefficiencies in resource management that lead to energy waste, performance bottlenecks, or overheating. Traditional static allocation methods fail to adapt to real-time demands, resulting in suboptimal performance and increased operational costs. The invention monitors system parameters such as temperature, power consumption, workload distribution, and cooling efficiency in real time. Using this monitoring data, a machine learning model predicts future resource needs and dynamically adjusts allocations to optimize performance and energy efficiency. The machine learning model may employ techniques such as reinforcement learning, neural networks, or regression analysis to analyze historical and real-time data, identifying patterns and correlations that inform allocation decisions. The system ensures that power is distributed to critical components during peak loads while minimizing waste, data is routed efficiently to reduce latency, and cooling resources are directed where thermal hotspots are detected. This adaptive approach reduces energy consumption, prevents hardware degradation, and improves overall system reliability. The machine learning model continuously learns from new data, refining its predictions and allocations over time.
12. The method of claim 1 wherein the splitter device comprises a passive splitter device.
A passive optical splitter device is used in fiber optic communication systems to divide an optical signal from a single input fiber into multiple output fibers without requiring external power. This technology addresses the need for efficient signal distribution in optical networks, particularly in passive optical network (PON) architectures, where power consumption and reliability are critical. The passive splitter device operates by splitting the optical signal using optical components such as fused fiber couplers or planar lightwave circuits, ensuring minimal signal loss and uniform distribution across the output ports. Unlike active splitters, which require electrical power, passive splitters rely solely on optical principles, making them more energy-efficient and reliable. The device is typically integrated into optical distribution networks to enable cost-effective and scalable signal delivery to multiple end-users. The passive nature of the splitter eliminates the need for power supplies, reducing maintenance costs and improving long-term reliability. This technology is essential for expanding broadband access in residential and commercial applications while maintaining high performance and low operational overhead.
13. The method of claim 1 further comprising identifying an abnormal condition in power, data, or cooling, and adjusting said power, data, or cooling in response to said identified abnormal condition.
This invention relates to systems for managing power, data, and cooling in computing environments, particularly in data centers or server farms. The problem addressed is the need to detect and respond to abnormal conditions in these critical infrastructure components to maintain system reliability and performance. The method involves monitoring power, data, and cooling systems to detect deviations from normal operating parameters. When an abnormal condition is identified—such as power fluctuations, data transmission errors, or cooling system failures—the system automatically adjusts the affected component to mitigate the issue. For example, if a power supply exhibits instability, the system may redistribute power loads or trigger backup power sources. Similarly, if data transmission errors are detected, the system may reroute data paths or adjust communication protocols. For cooling, the system may increase airflow, activate redundant cooling units, or redistribute thermal loads to prevent overheating. The method ensures continuous operation by dynamically responding to anomalies, reducing downtime and improving system resilience. It integrates real-time monitoring with automated corrective actions, enhancing efficiency and reliability in data center operations. The approach is applicable to various computing environments where maintaining stable power, data integrity, and cooling is critical.
14. The method of claim 1 wherein receiving said monitoring information comprises receiving said monitoring information on a bidirectional optical fiber delivering data on the cable.
This invention relates to optical fiber communication systems, specifically methods for monitoring optical fiber cables. The problem addressed is the need for efficient and reliable monitoring of optical fiber performance, particularly in bidirectional communication systems where data is transmitted in both directions over the same fiber. The method involves receiving monitoring information on a bidirectional optical fiber that is also used for data transmission. The monitoring information is derived from the optical fiber cable itself, providing real-time insights into the fiber's condition. This includes detecting faults, measuring signal quality, and assessing environmental factors affecting the fiber. By integrating monitoring with data transmission, the system avoids the need for separate monitoring fibers or dedicated monitoring channels, optimizing resource usage and reducing costs. The monitoring information may include parameters such as signal attenuation, dispersion, temperature variations, and mechanical stress along the fiber. Advanced signal processing techniques are used to extract this information from the transmitted data signals, ensuring minimal interference with ongoing communication. The system can alert operators to potential issues before they escalate, improving network reliability and reducing downtime. This approach is particularly useful in long-haul and high-capacity optical networks where maintaining fiber integrity is critical. By leveraging existing infrastructure for monitoring, the method enhances operational efficiency while maintaining high data transmission performance.
15. A method comprising: receiving at a communications device, power, data, and cooling from a remote splitter device receiving said power, data, and cooling on a combined cable from a central network device and splitting said power, data, and cooling among a plurality of communications devices; monitoring said power, data, and cooling at the communications device; transmitting monitoring information to the central network device through the splitter device and on the combined cable; and modifying at least one of power, data, and cooling settings in response to a control system message from the central network device allocating said power, data, and cooling to the communications devices; wherein the combined cable comprises a power line for delivering power, a data line for transmitting fiber delivered data, and a coolant tube for carrying coolant.
This invention relates to a distributed communications network system where a central network device supplies power, data, and cooling to multiple communications devices through a remote splitter device. The problem addressed is the need for efficient, centralized management of power, data, and cooling resources in distributed network architectures, particularly in environments where heat dissipation and resource allocation are critical. The system includes a central network device that transmits power, data, and cooling through a combined cable to a remote splitter device. The combined cable integrates a power line for electrical power, a data line for fiber-optic data transmission, and a coolant tube for circulating coolant. The splitter device distributes these resources among multiple communications devices. Each communications device monitors its received power, data, and cooling levels and transmits this monitoring information back to the central network device via the splitter and the combined cable. The central network device uses this feedback to dynamically adjust resource allocation by sending control system messages to modify power, data, or cooling settings for individual communications devices. This ensures optimal performance and prevents resource conflicts or overheating in the network. The system enables centralized control of distributed resources, improving efficiency and reliability in communications networks.
16. The method of claim 15 wherein said monitoring information comprises current and voltage for power, temperature, pressure, and flow for cooling, and queue size for data, said monitoring information transmitted over a bidirectional optical fiber in the combined cable.
This invention relates to a system for monitoring and managing data center infrastructure, particularly focusing on real-time tracking of critical operational parameters. The system addresses the challenge of efficiently monitoring power, cooling, and data processing metrics in data centers to ensure optimal performance and reliability. The method involves collecting monitoring information, including current and voltage for power systems, temperature and pressure for cooling systems, flow rates for cooling fluids, and queue sizes for data processing. This data is transmitted over a bidirectional optical fiber integrated within a combined cable, enabling simultaneous bidirectional communication for both monitoring and control signals. The combined cable consolidates multiple monitoring and control functions into a single infrastructure, reducing complexity and improving efficiency. The system dynamically adjusts operational parameters based on the monitored data to maintain optimal performance and prevent potential failures. By integrating these diverse monitoring capabilities into a unified cable, the invention simplifies deployment and enhances scalability in data center environments. The bidirectional optical fiber ensures high-speed, low-latency communication, supporting real-time adjustments and proactive maintenance. This approach improves energy efficiency, reduces downtime, and enhances overall data center reliability.
17. A system comprising: a central network device comprising a connector for connection to a cable delivering power, data, and cooling to a remote splitter device for splitting said power, data, and cooling for delivery to a plurality of remote communications devices over a plurality of cables, each of the cables carrying said power, data, and cooling; said plurality of remote communications devices comprising sensors for monitoring said power, data, and cooling; and a control system for receiving power, data, and cooling information for said plurality of remote communications devices and allocating said power, data, and cooling to said plurality of remote communications devices, wherein allocating said power, data, and cooling comprises transmitting a message from the central network device to a controller at one of said plurality of remote communications devices to adjust power, data, or cooling usage; wherein the cables each comprise a power line for delivering power, a data line for transmitting fiber delivered data, and a coolant tube for carrying coolant.
This invention relates to a networked system for distributing power, data, and cooling to remote communications devices, addressing challenges in managing resources efficiently in distributed environments. The system includes a central network device connected to a cable that delivers power, data, and cooling to a remote splitter device. The splitter divides these resources for distribution to multiple remote communications devices via individual cables, each containing a power line, a data line (for fiber-optic data transmission), and a coolant tube. Each remote device is equipped with sensors to monitor power, data, and cooling usage. A control system collects this monitoring data and dynamically allocates resources by sending adjustment commands to controllers at the remote devices. The system ensures optimized resource distribution, reducing inefficiencies and improving performance in distributed network setups. The integrated design of the cables simplifies deployment while maintaining separate pathways for power, data, and cooling, enhancing reliability and scalability.
18. The system of claim 17 wherein the splitter device comprises a passive splitter device.
A system for optical signal distribution includes a splitter device that divides an input optical signal into multiple output signals. The splitter device is a passive splitter, meaning it operates without requiring external power or active components. Passive splitters are commonly used in fiber optic networks to distribute signals from a single source to multiple destinations, such as in fiber-to-the-home (FTTH) or cable television (CATV) systems. The passive nature of the splitter ensures reliability and reduces maintenance costs, as there are no active components that could fail. The system may also include additional components, such as optical fibers, connectors, or other passive devices, to further manage the distribution of the optical signals. The passive splitter may be designed to operate at specific wavelengths or bandwidths, depending on the application. This design allows for efficient signal distribution while maintaining signal integrity across multiple output channels. The system is particularly useful in telecommunications and data transmission applications where signal splitting is required without the need for active amplification or signal conditioning.
19. The system of claim 17 wherein allocating said power, data, and cooling to said plurality of remote communications devices comprises modifying an interleave pattern for power packets on the cable, modifying a timeslot allocation for data on the cable, and modifying coolant valve settings for one or more of said plurality of remote communications devices.
This invention relates to a distributed communications system that dynamically allocates power, data, and cooling resources to multiple remote communications devices connected via a shared cable. The system addresses the challenge of efficiently managing these resources in environments where devices have varying demands, such as in telecommunications or data center applications. The cable carries power packets, data signals, and coolant, with the system adjusting resource distribution in real-time to optimize performance and energy efficiency. The system modifies the interleave pattern of power packets on the cable to control power distribution, ensuring each device receives the required electrical energy without overloading the cable. Simultaneously, it adjusts timeslot allocations for data transmission, dynamically assigning bandwidth to prioritize high-demand devices or services. Cooling is managed by modifying coolant valve settings for individual devices, regulating coolant flow to maintain optimal operating temperatures while minimizing energy waste. By integrating these adjustments, the system ensures balanced resource allocation, preventing bottlenecks and improving overall system reliability. The dynamic control mechanisms allow the system to adapt to changing conditions, such as fluctuating power demands or thermal loads, without requiring physical reconfiguration. This approach enhances efficiency, reduces operational costs, and extends the lifespan of connected devices.
Unknown
April 21, 2020
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